qmcpack/tests/molecules/FeCO6_b3lyp_pyscf/qmc-ref/qmc-long_noj.out

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Input file(s): vmc_b3lyp_noj.in.xml
=====================================================
QMCPACK 3.4.0
(c) Copyright 2003- QMCPACK developers
Please cite:
J. Kim et al. J. Phys. Cond. Mat. 30 195901 (2018)
https://doi.org/10.1088/1361-648X/aab9c3
Git branch: HEAD
Last git commit: ea23ca60d73178e72bd4639677282e070a3be112-dirty
Last git commit date: Tue Jun 26 14:08:17 2018 -0500
Last git commit subject: New Converged Pyscf references for FeCO6
=====================================================
Global options
MPI Nodes = 1
MPI Nodes per group = 1
MPI Group ID = 0
OMP_NUM_THREADS = 16
Precision used in this calculation, see definitions in the manual:
Base precision = double
Full precision = double
Input XML = vmc_b3lyp_noj.in.xml
Project = vmc_b3lyp_noj
date = 2018-07-05 08:48:45 CDT
host = beboplogin2
Random Number
-------------
Offset for the random number seeds based on time: 445
Range of prime numbers to use as seeds over processors and threads = 3163-3299
Particle Set
------------
Name: ion0
All the species have the same mass 1
Particle set size: 13
Particle Set
------------
Name: e
All the species have the same mass 1
Particle set size: 74
Wavefunction setup:
-------------------
Name: psi0
LCAO: SoaAtomicBasisSet<MultiQuintic,1>
Distance table for similar particles (A-A):
source/target: e
Using structure-of-arrays (SoA) data layout
Distance computations use open boundary conditions in 3D.
Distance table for dissimilar particles (A-B):
source: ion0 target: e
Using structure-of-arrays (SoA) data layout
Distance computations use open boundary conditions in 3D.
Reading BasisSet from HDF5 file:../FeCO6.h5
<input node="atomicBasisSet" name="bfd-vtz" Morder="pyscf" angular="spherical" elementType="Fe" normalized="no" basisType="Numerical" addSign="0" />
AO BasisSet for Fe
Spherical Harmonics contain (-1)^m factor
Angular momentum m expanded as -l, ... ,l, with the exception of L=1 (1,-1,0)
Grid is created by the input paremters in h5
Using log grid ri = 1e-06 rf = 100 npts = 1001
R(n,l,m,s) 0 0 0 0
R(n,l,m,s) 1 0 0 0
R(n,l,m,s) 2 0 0 0
R(n,l,m,s) 3 0 0 0
R(n,l,m,s) 4 0 0 0
R(n,l,m,s) 5 1 0 0
R(n,l,m,s) 6 1 0 0
R(n,l,m,s) 7 1 0 0
R(n,l,m,s) 8 1 0 0
R(n,l,m,s) 9 1 0 0
R(n,l,m,s) 10 2 0 0
R(n,l,m,s) 11 2 0 0
R(n,l,m,s) 12 2 0 0
R(n,l,m,s) 13 2 0 0
R(n,l,m,s) 14 3 0 0
R(n,l,m,s) 15 3 0 0
R(n,l,m,s) 16 4 0 0
Expanding Ylm as L=1 as (1,-1,0) and L>1 as -l,-l+1,...,l-1,l
Adding 1 spherical orbitals
Adding 1 spherical orbitals
Adding 1 spherical orbitals
Adding 1 spherical orbitals
Adding 1 spherical orbitals
Adding 3 spherical orbitals
Adding 3 spherical orbitals
Adding 3 spherical orbitals
Adding 3 spherical orbitals
Adding 3 spherical orbitals
Adding 5 spherical orbitals
Adding 5 spherical orbitals
Adding 5 spherical orbitals
Adding 5 spherical orbitals
Adding 7 spherical orbitals
Adding 7 spherical orbitals
Adding 9 spherical orbitals
Maximum Angular Momentum = 4
Number of Radial functors = 17
Basis size = 63
<input node="atomicBasisSet" name="bfd-vtz" Morder="pyscf" angular="spherical" elementType="C" normalized="no" basisType="Numerical" addSign="0" />
AO BasisSet for C
Spherical Harmonics contain (-1)^m factor
Angular momentum m expanded as -l, ... ,l, with the exception of L=1 (1,-1,0)
Grid is created by the input paremters in h5
Using log grid ri = 1e-06 rf = 100 npts = 1001
R(n,l,m,s) 0 0 0 0
R(n,l,m,s) 1 0 0 0
R(n,l,m,s) 2 0 0 0
R(n,l,m,s) 3 1 0 0
R(n,l,m,s) 4 1 0 0
R(n,l,m,s) 5 1 0 0
R(n,l,m,s) 6 2 0 0
R(n,l,m,s) 7 2 0 0
R(n,l,m,s) 8 3 0 0
Expanding Ylm as L=1 as (1,-1,0) and L>1 as -l,-l+1,...,l-1,l
Adding 1 spherical orbitals
Adding 1 spherical orbitals
Adding 1 spherical orbitals
Adding 3 spherical orbitals
Adding 3 spherical orbitals
Adding 3 spherical orbitals
Adding 5 spherical orbitals
Adding 5 spherical orbitals
Adding 7 spherical orbitals
Maximum Angular Momentum = 3
Number of Radial functors = 9
Basis size = 29
<input node="atomicBasisSet" name="bfd-vtz" Morder="pyscf" angular="spherical" elementType="O" normalized="no" basisType="Numerical" addSign="0" />
AO BasisSet for O
Spherical Harmonics contain (-1)^m factor
Angular momentum m expanded as -l, ... ,l, with the exception of L=1 (1,-1,0)
Grid is created by the input paremters in h5
Using log grid ri = 1e-06 rf = 100 npts = 1001
R(n,l,m,s) 0 0 0 0
R(n,l,m,s) 1 0 0 0
R(n,l,m,s) 2 0 0 0
R(n,l,m,s) 3 1 0 0
R(n,l,m,s) 4 1 0 0
R(n,l,m,s) 5 1 0 0
R(n,l,m,s) 6 2 0 0
R(n,l,m,s) 7 2 0 0
R(n,l,m,s) 8 3 0 0
Expanding Ylm as L=1 as (1,-1,0) and L>1 as -l,-l+1,...,l-1,l
Adding 1 spherical orbitals
Adding 1 spherical orbitals
Adding 1 spherical orbitals
Adding 3 spherical orbitals
Adding 3 spherical orbitals
Adding 3 spherical orbitals
Adding 5 spherical orbitals
Adding 5 spherical orbitals
Adding 7 spherical orbitals
Maximum Angular Momentum = 3
Number of Radial functors = 9
Basis size = 29
Created SPOSet builder named 'LCAOBSet' of type molecularorbital
Reuse SPOSetBuilder "LCAOBSet" type MolecularOrbital
Building SPOSet '' with '' basis set.
Reuse SPOSetBuilder "LCAOBSet" type MolecularOrbital
Building SPOSet '' with '' basis set.
Creating a determinant updet group=0 sposet=updet
Reusing a SPO set updet
Using DiracDeterminantBase
Creating a determinant downdet group=1 sposet=downdet
Reusing a SPO set downdet
Using DiracDeterminantBase
FermionWF = SlaterDet
QMCHamiltonian::addOperator Kinetic to H, physical Hamiltonian
QMCHamiltonian::addOperator ElecElec to H, physical Hamiltonian
QMCHamiltonian::addOperatorType added type coulomb named ElecElec
Distance table for similar particles (A-A):
source/target: ion0
Using structure-of-arrays (SoA) data layout
Distance computations use open boundary conditions in 3D.
QMCHamiltonian::addOperator IonIon to H, physical Hamiltonian
QMCHamiltonian::addOperatorType added type coulomb named IonIon
ECPotential builder for pseudopotential
Adding pseudopotential for C
Linear grid ri=0 rf=10 npts = 10001
ECPComponentBuilder::buildSemiLocalAndLocal
Assuming Hartree unit
Number of angular momentum channels 2
Maximum angular momentum channel 1
Creating a Linear Grid Rmax=1.7
Using global grid with delta = 0.001
Making L=1 a local potential with a radial cutoff of 9.999
Non-local pseudopotential parameters
Maximum angular mementum = 0
Number of non-local channels = 1
l(0)=0
Cutoff radius = 1.7
Spherical grids and weights:
1 0 0 0.08333333333
-1 1.224646799e-16 0 0.08333333333
0.4472135955 0.894427191 0 0.08333333333
-0.4472135955 0.7236067977 0.5257311121 0.08333333333
0.4472135955 0.2763932023 0.8506508084 0.08333333333
-0.4472135955 -0.2763932023 0.8506508084 0.08333333333
0.4472135955 -0.7236067977 0.5257311121 0.08333333333
-0.4472135955 -0.894427191 1.095357397e-16 0.08333333333
0.4472135955 -0.7236067977 -0.5257311121 0.08333333333
-0.4472135955 -0.2763932023 -0.8506508084 0.08333333333
0.4472135955 0.2763932023 -0.8506508084 0.08333333333
-0.4472135955 0.7236067977 -0.5257311121 0.08333333333
Maximum cutoff radius 1.7
Adding pseudopotential for Fe
Linear grid ri=0 rf=10 npts = 10001
ECPComponentBuilder::buildSemiLocalAndLocal
Assuming Hartree unit
Number of angular momentum channels 3
Maximum angular momentum channel 2
Creating a Linear Grid Rmax=1.355653
Using global grid with delta = 0.001
Making L=2 a local potential with a radial cutoff of 9.999
Non-local pseudopotential parameters
Maximum angular mementum = 1
Number of non-local channels = 2
l(0)=0
l(1)=1
Cutoff radius = 1.356
Spherical grids and weights:
1 0 0 0.08333333333
-1 1.224646799e-16 0 0.08333333333
0.4472135955 0.894427191 0 0.08333333333
-0.4472135955 0.7236067977 0.5257311121 0.08333333333
0.4472135955 0.2763932023 0.8506508084 0.08333333333
-0.4472135955 -0.2763932023 0.8506508084 0.08333333333
0.4472135955 -0.7236067977 0.5257311121 0.08333333333
-0.4472135955 -0.894427191 1.095357397e-16 0.08333333333
0.4472135955 -0.7236067977 -0.5257311121 0.08333333333
-0.4472135955 -0.2763932023 -0.8506508084 0.08333333333
0.4472135955 0.2763932023 -0.8506508084 0.08333333333
-0.4472135955 0.7236067977 -0.5257311121 0.08333333333
Maximum cutoff radius 1.356
Adding pseudopotential for O
Linear grid ri=0 rf=10 npts = 10001
ECPComponentBuilder::buildSemiLocalAndLocal
Assuming Hartree unit
Number of angular momentum channels 2
Maximum angular momentum channel 1
Creating a Linear Grid Rmax=1.31
Using global grid with delta = 0.001
Making L=1 a local potential with a radial cutoff of 9.999
Non-local pseudopotential parameters
Maximum angular mementum = 0
Number of non-local channels = 1
l(0)=0
Cutoff radius = 1.31
Spherical grids and weights:
1 0 0 0.08333333333
-1 1.224646799e-16 0 0.08333333333
0.4472135955 0.894427191 0 0.08333333333
-0.4472135955 0.7236067977 0.5257311121 0.08333333333
0.4472135955 0.2763932023 0.8506508084 0.08333333333
-0.4472135955 -0.2763932023 0.8506508084 0.08333333333
0.4472135955 -0.7236067977 0.5257311121 0.08333333333
-0.4472135955 -0.894427191 1.095357397e-16 0.08333333333
0.4472135955 -0.7236067977 -0.5257311121 0.08333333333
-0.4472135955 -0.2763932023 -0.8506508084 0.08333333333
0.4472135955 0.2763932023 -0.8506508084 0.08333333333
-0.4472135955 0.7236067977 -0.5257311121 0.08333333333
Maximum cutoff radius 1.31
QMCHamiltonian::addOperator LocalECP to H, physical Hamiltonian
Using NonLocalECP potential
Maximum grid on a sphere for NonLocalECPotential: 12
QMCHamiltonian::addOperator NonLocalECP to H, physical Hamiltonian
ECPotential::Rmax 9.999
QMCHamiltonian::addOperatorType added type pseudo named PseudoPot
QMCHamiltonian::add2WalkerProperty added
5 to P::PropertyList
0 to P::Collectables
starting Index of the observables in P::PropertyList = 9
ParticleSetPool::randomize
<init source="ion0" target="e">
</init>
Initialization Execution time = 0.1306 secs
=========================================================
Summary of QMC systems
=========================================================
ParticleSetPool has:
ParticleSet e : 0 39 74
74
u -1.4479556278e+00 1.6015327620e-01 -6.6164076611e-01
u -1.2613069555e+00 5.3855296552e-01 8.2405021400e-01
u -7.4370920630e-01 -1.1393839704e+00 8.4184157830e-01
u -1.4462112712e+00 -4.4890168267e-01 5.1667504980e-01
u 1.2914116206e+00 8.2863280085e-01 4.5346396547e-01
u -1.4579923666e+00 -7.2686868766e-02 -6.5495647912e-01
u -8.9831688312e-02 1.5950052421e+00 8.8811415931e-02
u -3.9489253490e-02 1.5764791229e+00 2.7046863376e-01
u -2.2248427907e-01 -5.1358338814e-01 3.7821956891e+00
u -2.5810050798e-01 -4.1073157177e-01 5.1201113819e+00
(... and 64 more particle positions ...)
ParticleSet ion0 : 0 1 7 13
13
Fe 2.4566439619e-06 -1.8897261246e-07 -1.8897261246e-07
C 6.9919866609e-06 -1.3642688784e-02 4.4230710463e+00
O -5.6502811124e-05 -7.8540608217e-02 6.5288523933e+00
C 4.3520247140e+00 -2.5889247907e-05 -2.5511302682e-05
O 6.4595489554e+00 -3.2125344118e-05 -3.1747398893e-05
C -4.3520160212e+00 2.5133357457e-05 2.4755412232e-05
O -6.4595402626e+00 3.1558426280e-05 3.1180481055e-05
C -3.5904796367e-06 1.3643066729e-02 -4.4230708574e+00
O 4.7243153114e-05 7.8541175134e-02 -6.5288520154e+00
C -5.2912331488e-06 -4.4162636859e+00 1.2432697146e-02
(... and 3 more particle positions ...)
Hamiltonian h0
Kinetic Kinetic energy
ElecElec CoulombAA source/target e
IonIon CoulombAA source/target ion0
LocalECP LocalECPotential: ion0
NonLocalECP NonLocalECPotential: ion0
=========================================================
Start VMCSingleOMP
File Root vmc_b3lyp_noj.s000 append = no
=========================================================
Adding 16 walkers to 0 existing sets
Total number of walkers: 1.6000000000e+01
Total weight: 1.6000000000e+01
Resetting Properties of the walkers 1 x 14
<vmc function="put">
qmc_counter=0 my_counter=0
time step = 1.0000000000e-01
blocks = 200
steps = 150
substeps = 3
current = 0
target samples = 1.6000000000e+04
walkers/mpi = 16
stepsbetweensamples = 30
<parameter name="blocks" condition="int">200</parameter>
<parameter name="blocks_between_recompute" condition="int">0</parameter>
<parameter name="check_properties" condition="int">100</parameter>
<parameter name="checkproperties" condition="int">100</parameter>
<parameter name="current" condition="int">0</parameter>
<parameter name="dmcwalkersperthread" condition="real">1.0000000000e+03</parameter>
<parameter name="maxcpusecs" condition="real">3.6000000000e+05</parameter>
<parameter name="record_configs" condition="int">0</parameter>
<parameter name="record_walkers" condition="int">30</parameter>
<parameter name="recordconfigs" condition="int">0</parameter>
<parameter name="recordwalkers" condition="int">30</parameter>
<parameter name="rewind" condition="int">0</parameter>
<parameter name="samples" condition="real">1.6000000000e+04</parameter>
<parameter name="samplesperthread" condition="real">1.0000000000e+03</parameter>
<parameter name="steps" condition="int">150</parameter>
<parameter name="stepsbetweensamples" condition="int">30</parameter>
<parameter name="store_configs" condition="int">0</parameter>
<parameter name="storeconfigs" condition="int">0</parameter>
<parameter name="sub_steps" condition="int">3</parameter>
<parameter name="substeps" condition="int">3</parameter>
<parameter name="tau" condition="au">1.0000000000e-01</parameter>
<parameter name="time_step" condition="au">1.0000000000e-01</parameter>
<parameter name="timestep" condition="au">1.0000000000e-01</parameter>
<parameter name="use_drift" condition="string">yes</parameter>
<parameter name="usedrift" condition="string">yes</parameter>
<parameter name="walkers" condition="int">16</parameter>
<parameter name="warmup_steps" condition="int">50</parameter>
<parameter name="warmupsteps" condition="int">50</parameter>
DumpConfig==false Nothing (configurations, state) will be saved.
Walker Samples are dumped every 30 steps.
</vmc>
Adding a default LocalEnergyEstimator for the MainEstimator
CloneManager::makeClones makes 16 clones for W/Psi/H.
Cloning methods for both Psi and H are used
===== Memory Usage before cloning =====
Available memory on node 0, free + buffers : 119321 MB
Memory footprint by rank 0 on node 0 : 70 MB
==================================================
===== Memory Usage after cloning =====
Available memory on node 0, free + buffers : 119319 MB
Memory footprint by rank 0 on node 0 : 85 MB
==================================================
Initial partition of walkers 0 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16
Using Particle by Particle moves
Walker moves with drift
Total Sample Size =16000
Walker distribution on root = 0 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16
Using Locality Approximation
===== Memory Usage after the buffer registration =====
Available memory on node 0, free + buffers : 119253 MB
Memory footprint by rank 0 on node 0 : 153 MB
==================================================
Anonymous Buffer size per walker : 114368 Bytes.
MEMORY increase 1 MB VMCSingleOMP::resetRun
====================================================
SimpleFixedNodeBranch::finalize after a VMC block
QMC counter = 0
time step = 0.1
reference energy = -252.132
reference variance = 25.8402
====================================================
QMC Execution time = 3.1263e+02 secs
Total Execution time = 3.1263e+02 secs
=========================================================
A new xml input file : vmc_b3lyp_noj.s000.cont.xml